Opto-Mechanical Integration Design

Design and Production Teams

Our design and production teams collaborate closely, pooling their respective professional insights and rich experiences to craft customized optical instruments, components, and systems. They lead the entire process, from initial conceptualization to prototype design, and through to the final product’s manufacturing. Throughout every stage of opto-mechanical design, the team adheres to a rigorous process:

Thorough preliminary analysis, comprehensively evaluating customer needs, technical feasibility, and cost-effectiveness, laying a solid foundation for subsequent design.
In-depth discussions on customization to ensure product advancement and uniqueness.
Comprehensive consideration of environmental impacts, such as stress, impact, wide temperature variations, vibration environments, and specific operating scenarios, to ensure instruments possess outstanding environmental adaptability and stability in practical applications.
Prudent material selection to avoid failure, carefully selecting materials that meet optical performance requirements while withstanding potential deviation risks in opto-mechanical systems, ensuring long-term reliable operation.
Efficient delivery based on rich experience, ensuring customers experience swift delivery speeds and excellent value return while enjoying customized services.

As a company with over sixty years of expertise in opto-mechanical engineering

VY Optics deeply understands that the role of opto-mechanical engineers extends far beyond merely constructing simple support structures for optical components. Therefore, we are committed to providing globally customers with cost-effective and rapidly responsive opto-mechanical product solutions, leveraging profound expertise and extensive practical experience.

We offer opto-mechanical product solutions that combine cost-effectiveness with rapid responsiveness.
Rapid product design and prototyping significantly shorten time to market.
While ensuring product quality and performance, we markedly optimize customers’ project ROI.
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    We have assembled a deeply collaborative team of optical and mechanical engineers

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      Exclusive features
      Dedication to creating optical instruments with outstanding stability, strong durability, consistent accuracy, and excellent cost-effectiveness.
      Integration of components to maximize the overall stability of optical systems.
      Kinematic optimization and analysis, transcending the limitations of traditional opto-mechanical design.
      Thermal management and material selection to ensure consistent optical performance across broad temperature ranges.
      Vibration suppression technology to ensure high definition and precise measurement capabilities in demanding environments.
      Cutting-edge bonding techniques to effectively reduce instrument weight, compress its volume, and achieve a more compact, streamlined appearance.
      Adherence to MIL standards to ensure every optical instrument leaving the factory meets stringent requirements for environmental adaptability, reliability, and safety.

      Meet the requirements of different application scenarios

      When designing mechanical components of opto-mechanical systems such as housings, gaskets, and fixtures, engineers must comprehensively consider various key factors, including weight, durability, cost-effectiveness, and stability, to precisely select metal materials with ideal strength, stability, and support. To this end, we supply a range of mechanical components crafted from a variety of high-quality metals to meet the needs of different application scenarios:

      Aluminum alloy

      Widely used in optics, aluminum alloy is the preferred material for many brands and types of optical mechanical components. We also offer aluminum alloy components treated with black oxide surface treatment.

      Magnesium-aluminum alloy

      A lightweight and high-strength alloy material, particularly suitable for lens designs requiring overall weight reduction.

      Copper

      Renowned for its excellent conductivity and thermal conductivity, copper is often used as an efficient heat dissipation material. Additionally, its high wear resistance makes it an important choice for manufacturing precision screws and wear-resistant parts.

      Titanium

      Known for its high stability and lightweight characteristics, titanium is commonly used to manufacture optical brackets, barrels, housings, and other structural components sensitive to weight and requiring high stability, especially in high-end optical instruments for aerospace, military, and scientific research applications.

      Stainless steel

      Widely used in the manufacture of structural components such as barrels, brackets, connectors, and housings in optical instruments, especially those requiring precision work in vacuum environments.

      Invar steel

      In the optical field, invar steel is mainly used in situations where precise shape and position retention are required, such as mirror support frames, precision positioning mechanisms, and zero-expansion components of optical platforms.

      ABS engineering plastics

      This is a common material for lens housings due to its lightweight, moderate price, and high strength.

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